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I would involve my pupils in a cross-curricular arts project inspired by the history, heritage, and landscape of Roscrea. The project would encourage students to explore the local area through art, music, drama, and creative writing while developing an appreciation of its cultural and historical significance. Through a combination of research, outdoor learning, and creative expression, students would be given opportunities to respond to their local environment in imaginative ways.
The project would begin with a visit to Roscrea, where pupils would observe historical buildings, natural features, sculptures, and landmarks. They would take photographs, make sketches, and record observations about the colours, textures, sounds, and atmosphere of the town. If a visit were not possible, virtual tours, photographs, maps, and online resources could be used to introduce the local area.
In Visual Arts, pupils would create landscape paintings, observational drawings, or mixed-media collages inspired by Roscrea’s architecture and surroundings. They could experiment with different artistic techniques to recreate landmarks or design their own interpretations of the town using recycled and natural materials. Older pupils could work collaboratively to build a three-dimensional model of part of the town.
Music activities would encourage pupils to explore the sounds of the local environment. They could create soundscapes using percussion instruments to represent bustling streets, birdsong, church bells, or changing weather. Pupils could also compose simple rhythmic pieces or songs celebrating Roscrea’s heritage and perform these for parents or the wider school community.
Drama would provide opportunities for pupils to bring local history to life. Small groups could devise short performances imagining daily life in Roscrea at different points in history or create role-plays based on historical figures, travellers, or local legends. Freeze-frame activities, improvisation, and storytelling would help pupils develop confidence, collaboration, and communication skills while deepening their understanding of the area’s heritage.
Creative writing would allow pupils to express their own responses to Roscrea. Younger children could write descriptive sentences or acrostic poems, while older pupils might produce diary entries from the perspective of someone living in the town long ago, adventure stories set around local landmarks, or poems inspired by the sights, sounds, and atmosphere they experienced during their visit. Pupils could also create information booklets or digital presentations combining factual research with their own creative work.
Digital technologies would support the project by allowing pupils to photograph their artwork, record music and drama performances, and produce digital books or short videos documenting their learning. The completed work could be displayed in a school exhibition or shared during a celebration event for families and the local community.
This project integrates a wide range of curriculum areas, including Visual Arts, Music, Drama, English, History, Geography, and Digital Learning. It promotes creativity, collaboration, communication, and critical thinking while helping pupils develop a strong sense of place and pride in their local heritage. By engaging with Roscrea through multiple forms of artistic expression, pupils gain a deeper understanding of their local environment and recognise the value of preserving and celebrating its unique cultural identity.
I agree Carrie, the ESRO lessons are very well designed and great for teachers to plan innovative lessons.
Using the suspension bridge in Birr Castle Demesne, I would organise a STEM bridge design challenge that encourages students to apply their knowledge of science, engineering, technology, and mathematics to solve a real-world problem. The challenge would be suitable for my class or could be adapted as a whole-school STEM initiative, with different class levels working on age-appropriate bridge designs.
The project would begin with an exploration of bridges in the local area. Students would examine photographs or visit a nearby bridge to observe its purpose, design, materials, and structural features. During the visit, they would discuss questions such as: Why was this type of bridge chosen? What forces act on the bridge? How does the structure support weight? Students would identify features such as beams, arches, trusses, suspension cables, and supports, linking these observations to scientific concepts of forces, balance, compression, and tension.
Following this introduction, students would be presented with a design brief: Design and build a bridge that can span a gap of 40 cm and support the greatest possible load using only a limited selection of materials. Materials might include paper, card, craft sticks, drinking straws, string, masking tape, and glue. Working in small teams, students would follow the engineering design process by investigating, planning, designing, building, testing, evaluating, and improving their bridge prototypes.
Mathematical thinking would be embedded throughout the project. Students would estimate and measure bridge length, height, width, and span using appropriate units of measurement. They would calculate the amount of material available, compare dimensions, and use scale drawings to plan their designs. Geometry would be explored through identifying and constructing shapes that provide strength, particularly triangles used in truss bridges. Students would investigate symmetry and consider how balanced designs contribute to structural stability.
Data handling would play an important role during testing. Each bridge would be tested by gradually adding weights until it failed or reached a predetermined limit. Students would record the mass supported, organise the results in tables, calculate averages where appropriate, and create bar charts or line graphs to compare the performance of different designs. They would analyse the data to identify which design features contributed to strength and discuss how modifications could improve performance.
The challenge would integrate all aspects of STEM. Science learning would focus on forces, materials, gravity, and stability. Technology would involve researching bridge types and documenting the design process using digital tools such as photographs, presentations, or short videos. Engineering would be central to designing, constructing, testing, and refining prototypes. Mathematics would underpin planning, measuring, estimating, calculating, representing data, and evaluating outcomes.
The project could also be integrated across other curriculum areas. In English, students could write design proposals, maintain engineering journals, present their findings, and evaluate their work using scientific vocabulary. In Visual Arts, they could sketch bridge designs, create technical drawings, or build aesthetically pleasing models. Geography would provide opportunities to investigate why bridges are built in particular locations and how they connect communities. History could explore famous bridges in Ireland and around the world and examine how bridge engineering has evolved over time.
Assessment would include observation of teamwork and problem-solving, review of design plans and engineering journals, evaluation of completed bridges, and student reflection on the effectiveness of their designs. Students would be encouraged to explain the mathematical reasoning behind their decisions and use evidence from testing to justify improvements.
This bridge design challenge reflects the principles of STEM education by providing an authentic, collaborative, and inquiry-based learning experience. By integrating mathematical thinking throughout the engineering design process, students develop measurement, geometry, data handling, and problem-solving skills while experiencing how mathematics supports real-world engineering. The project encourages creativity, resilience, collaboration, and critical thinking, helping students appreciate the interconnected nature of STEM learning.
A seasonal biodiversity project would provide students with an opportunity to observe how the natural environment changes throughout the year while developing scientific inquiry skills, environmental awareness, and an appreciation of local biodiversity. The project would run across the entire school year, allowing students to make regular observations and identify patterns over time.
Using the course resources, I would establish a designated biodiversity study area within the school grounds, such as a garden, hedgerow, woodland area, or grassy space. Students would visit this location regularly to observe seasonal changes in plants, animals, insects, fungi, and weather conditions. The emphasis would be on careful observation, recording evidence, asking questions, and making comparisons across the seasons.
To support the project, I would use a range of resources, including species identification guides, tree and wildflower charts, bird and insect identification sheets, magnifying glasses, bug viewers, thermometers, rain gauges, measuring tapes, clipboards, digital cameras or tablets, and online citizen science platforms where appropriate. Digital tools such as Google Lens, iNaturalist, or the National Biodiversity Data Centre’s recording resources could help students identify species accurately and contribute to real biodiversity monitoring projects.
Students would use a variety of recording sheets throughout the year, including:
Seasonal observation journals.
Nature spotter checklists.
Plant and animal identification sheets.
Tree and leaf identification records.
Bird and insect tally charts.
Weather recording sheets.
Habitat survey templates.
Simple data tables and graphs to compare observations over time.
Reflection journals where students record questions, predictions, and new learning.I would aim to bring learning outdoors at least once each fortnight, with additional visits during significant seasonal events such as autumn leaf fall, spring flowering, bird nesting, or insect emergence. Short, regular observations would help students notice gradual changes that might otherwise be overlooked and would reinforce the idea that scientific investigations often require long-term data collection.
The project would integrate naturally with a range of curriculum areas. In Science, students would investigate living things, habitats, life cycles, and environmental change through observation and inquiry. In Geography, they would explore local environments, land use, mapping, and human impacts on biodiversity. Mathematics would be incorporated through measuring, estimating, collecting data, creating tables and graphs, and identifying patterns and trends.
English lessons would include nature journaling, report writing, oral presentations, poetry, and descriptive writing inspired by seasonal observations. In Visual Arts, students could create botanical drawings, leaf prints, habitat models, and seasonal displays using natural materials. Digital Technologies would support photography, digital presentations, online species identification, and the creation of interactive maps or digital portfolios documenting the project.
The project could also incorporate Social, Environmental and Scientific Education (SESE) by encouraging discussions about sustainability, conservation, and caring for local habitats. Students might participate in school initiatives such as planting pollinator-friendly flowers, creating bug hotels, or monitoring bird feeders. These activities would help students develop a sense of environmental responsibility while applying their scientific learning in meaningful ways.
Assessment would be ongoing through observation, student journals, completed recording sheets, class discussions, digital portfolios, and presentations. Students would be encouraged to reflect on their findings, identify seasonal patterns, and explain how biodiversity changes throughout the year using evidence gathered during the project.
Overall, a seasonal biodiversity project provides an engaging and authentic context for STEM learning. By combining regular outdoor experiences with scientific investigation and cross-curricular learning, students develop curiosity, observation skills, data literacy, and a deeper understanding of the natural world. Running the project across the school year allows students to experience environmental change first-hand and fosters a lasting appreciation for biodiversity and sustainable stewardship of their local environment.
The outdoor mapping activity provides students with an opportunity to investigate their local environment while developing geographical, mathematical, scientific, and digital literacy skills. I would use this activity with my class to help students understand that maps can represent many different types of information through the use of layers.
The lesson would begin with a discussion about maps and how they are used to communicate information. Students would examine examples of digital maps, such as Google Maps or Ordnance Survey maps, and identify the different layers that can be displayed, including satellite imagery, terrain, roads, and points of interest. This would introduce the idea that one location can be represented in multiple ways depending on the information being collected.
Students would then work in small groups to explore the school grounds. Each group would be responsible for collecting data on a particular variable. Possible variables could include:
Areas of sunlight and shade at different times of the day.
Types and locations of trees and plants.
Bird or insect sightings.
Noise levels around the school.
Temperature in different locations.
Playground equipment and its usage.
Litter or recycling points.
Accessibility features such as ramps, pathways, and entrances.
Water drainage or puddle formation after rainfall.Students would use clipboards, simple recording sheets, measuring equipment where appropriate, and tablets or mobile devices to photograph locations and record observations. After collecting their data, they would return to the classroom to create digital map layers using online tools such as Google My Maps, ArcGIS Online, Padlet, or Google Earth. Students could upload photographs, add markers, create polygons, and annotate their findings to produce an interactive class map.
To encourage inquiry and critical thinking, I would ask students questions such as:
Why do you think this pattern appears on our map?
Which areas receive the most sunlight? Why?
Where are the quietest and noisiest places in the school grounds?
How does the location of trees affect temperature or shade?
Are there enough habitats for wildlife around our school?
Which areas are the most accessible for everyone?
What changes could improve our outdoor environment?
How would the map change if we collected data in another season or at a different time of day?Students would compare the different map layers to identify relationships between variables. For example, they might discover that shaded areas are cooler, that birds are more commonly found near trees, or that litter accumulates in high-traffic areas. These observations would encourage students to make evidence-based conclusions and suggest improvements for the school environment.
This lesson integrates STEM by combining scientific observation, mathematical data collection and analysis, geographical mapping skills, engineering thinking through environmental problem-solving, and technology through the use of digital mapping tools. It also promotes collaboration, communication, and critical thinking, while helping students appreciate how data can be used to understand and improve the world around them.
Overall, this activity provides an authentic and engaging learning experience that allows students to investigate their own environment, develop digital mapping skills, and see how STEM disciplines work together to solve real-world problems.
I agree with John, that this module has highlighted the importance of hands on approaches to teach and strengthen the value of STEM lessons to our students.
<p class=”isSelectedEnd”>One of the key messages from Liston (2018) is that STEM should not be viewed as four separate subjects taught alongside one another, but as an integrated approach that encourages students to solve authentic problems through inquiry, creativity, collaboration, and critical thinking. This perspective has prompted me to consider whether my lessons provide meaningful opportunities for students to connect knowledge across disciplines rather than learning concepts in isolation.</p>
<p class=”isSelectedEnd”>In my classroom, STEM learning is most effective when it is centred on real-world challenges. Students engage in hands-on investigations, design tasks, and collaborative projects that require them to ask questions, test ideas, evaluate evidence, and refine their solutions. For example, students may investigate environmental issues, design structures using engineering principles, or use digital technologies to collect and present data. These activities naturally integrate science, mathematics, technology, and engineering while promoting problem-solving and resilience.</p>
<p class=”isSelectedEnd”>Reflection on the paper has also highlighted areas where I can strengthen my practice. While I regularly incorporate practical investigations and digital technologies, I recognise that there are occasions when the STEM disciplines remain compartmentalised. I would like to become more intentional in planning learning experiences where the connections between the disciplines are explicit and purposeful. Rather than adding technology to existing lessons, I aim to design learning experiences where each STEM discipline contributes meaningfully to addressing a shared problem.</p>
<p class=”isSelectedEnd”>Liston (2018) also emphasises the importance of developing transferable skills alongside subject knowledge. In my classroom, I strive to foster collaboration, communication, creativity, and critical thinking by encouraging students to work in teams, explain their reasoning, and reflect on both successful and unsuccessful outcomes. Creating a classroom culture where students feel comfortable taking risks and learning from mistakes is an important aspect of STEM education, as it mirrors authentic scientific and engineering processes.</p>
<p class=”isSelectedEnd”>Moving forward, I intend to increase the use of inquiry-based and project-based learning, strengthen partnerships with the wider community where appropriate, and provide more opportunities for students to engage with authentic STEM careers and contexts. I also plan to refine my assessment practices so that they capture not only students’ content knowledge but also their problem-solving processes, collaboration, and application of learning.</p>
Overall, Liston’s paper has reinforced that effective STEM education is not simply about teaching science, technology, engineering, and mathematics together. It is about creating integrated, authentic learning experiences that develop curiosity, innovation, and the capacity to solve complex problems. Reflecting on my own classroom has highlighted both the strengths of my current practice and opportunities for continued growth as I work towards providing richer and more meaningful STEM learning experiences for my students.